The IRIDE program is an innovative project undertaken by the Italian government in collaboration with the European Space Agency (ESA) to leverage resources from the National Recovery and Resilience Plan (PNRR). Phase 2 of IRIDE Lot 1 started in October 2024 following the successful implementation of the IRIDE Precursor Phase. The main purpose of the project is to deliver an operational portfolio of geospatial services and develop digital tools for End and Pilot users within the Thematic Services S1-Coastal and Marine Monitoring, S2- Air Quality, S5- Hydro-Meteorological-Climate, S6- WaterManagement. The operational services allow mapping, monitoring and forecasting of various characteristics of coastal areas (including geomorphological, land use, flooding, habitats etc.) as well as operational model validation, operational air quality monitoring and forecast, pollutant emissions monitoring and assessment, re-analysis of air quality at national scale, hydro-meterological mapping and monitoring atmospheric structure, greenhouse gases and others essential climate variables monitoring, lightening monitoring, flood forecasting and sediment management, etc.

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The IRIDE program is an innovative project undertaken by the Italian government, in collaboration with the European Space Agency (ESA), to leverage resources from the National Recovery and Resilience Plan (PNRR). Following the successful implementation of the IRIDE Precursor Phase, the Phase 2 started in October 2024. The main purpose of the project is to deliver an operational portfolio of geospatial services and develop digital tools for End and Pilot users within the Thematic Services S7-Emergency and S8-Security. The operational services allow mapping, monitoring and forecasting of critical events such as earthquakes, floods, extreme weather events, wildfires, volcanic eruptions, landslides, avalanches, mudflows, tsunamis, and other natural or man-made disasters. Additionally, the program includes Maritime Surveillance, focusing on oil spill detection, sea pollution management, and vessel tracking, ensuring comprehensive support for emergency and security needs.

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Recognizing the central role played by snow, ice and permafrost in the global climate system, the LIQUIDICE project joins expert cryospheric observers and modelers to: i) comprehensively re-assess the past and future century-plus of climate-induced high impact changes to the Greenland ice sheet and climate vulnerable locations across the Alps, Norway, High Mountain Asia (HMA) and Svalbard, including permafrost areas and their ecosystems; ii) develop new, expanded and harmonized data from satellite Earth Observation (EO) and ground stations; iii) use these data to improve and test a hierarchy of ice sheet and glacier models with Earth System Models (ESMs); iv) through these steps, yield new process understanding, and ultimately v) inform water resource, hydropower, and socio-economic strategies through clear and transparent communication of results and uncertainties. The project’s strengths lie in new multidisciplinary collaborations across 18 research institutions, from eight European countries (Poland, Italy, Denmark, Germany, Spain, Sweden, Norway, United Kingdom) and India, encompassing expertise in field observations, satellite EO techniques, ESM development and application, and socio-economic analysis. Key deliverables include a) FAIR-principled new multi-decade data catalogues of multi-regional snow water equivalent and a 44-year EO-derived albedo record; b) assessments of impact of model resolution and degree of coupling on results; c) refined past and future glacier, ice cap and Greenland ice sheet freshwater fluxes to oceans and global sea level rise with indirect constraint on Antarctica; d) new hydrological simulations for HMA; e) a new framework for a Water Discharge Impact Assessments; f) socio-economic integrated risk and adaptation assessments;

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The Med-IREN project is strategically designed to demonstrate actionable solutions for climate-proofing critical infrastructures across the Mediterranean, with a particular focus on enhancing resilience through Nature-Based Solutions (NBS). These solutions will be applied to improve climate risk management and ensure business continuity in the face of extreme climate change. The project will be implemented in five key lighthouse regions across the Mediterranean (Granollers, PACA, Ischia, Tuscany, Egaleo), each addressing a specific, present-day challenge. These regions will align with regional policies, further contributing to the EU’s position as a global leader in climate resilience. Moreover, the project will leverage Dataclime, CMCC’s advanced climate service platform, to provide cutting-edge data and analytics for real-time monitoring and risk assessment, ensuring that the project’s impact is grounded in the most up-to-date scientific evidence and fostering actionable insights for stakeholders

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Natural hazards, such as extreme weather events, are exacerbated by climate change. As a result, emergency responses are becoming more protracted, expensive, frequent, and stretching limited available resources. This is especially apparent in rapidly warming regions. MedEWSa addresses these challenges by providing novel solutions to ensure timely, precise, and actionable impact and finance forecasting, and early warning systems (EWS) that support the rapid deployment of first responders to vulnerable areas. 

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The Arctic region plays a vital role in the global climate system, it is strongly affected by climate change, and in turn one of its drivers. The Arctic is warming four times faster than the global average, transitioning into an entirely different climate than a few decades ago (Legg, 2021). Satellite data reveal that the September sea ice extent declined by ~13% per decade since 1979 causing major changes in the oceanic heat flux. Changes in the Arctic sea ice impact extreme weather and climate events beyond the Arctic region, favouring extreme Northern Hemisphere winters (Kretschmer et al., 2016) or wetter European summers (Screen, 2013). Arctic changes have a substantial socio-economical relevance (e.g. indigenous communities, shipping and tourism, fisheries), as well as a geopolitical dimension, given possible shipping routes and natural resources exploitation. Understanding the causes of these changes is thus of paramount importance yet substantial gaps still exist. Moreover, numerous studies have demonstrated the limitations of current-generation climate models in accurately representing essential aspects of polar climates, such as Arctic sea ice loss (Wang et al., 2016) or water mass changes (Ilicak et al., 2016).

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The MISSION project will eliminate bottlenecks of the overall maritime supply chain creating significant economic advantages for direct stakeholders and environmental benefits for society. By enabling collaboration among stakeholders and allowing ship schedules to be synchronised, ship operations and port services will be optimised, thus enhancing the efficiency of maritime operations and reducing the fuel consumption and GHG emissions. The project will demonstrate the benefits and challenges of MISSION specifically for three shipping segments, Tramp (bulk and tanker) RoRo, and container ship traffic, connecting ports in the European seas of Spain, Italy, Greece and Lithuania. MISSION’s port call optimisation and end-to-end orchestration of different traffic types will be built on data sharing platforms, with reference to harmonised standards and provide application programming interfaces for interoperability.

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MOIRAI, named after the three Greek goddesses of fate, is a pioneering project that integrates historical data, present observations, and future projections to enhance ocean and biogeochemical climate modeling across European seas. Aligned with the frameworks of Destination Earth (DE) and the Digital Twin of the Ocean (DTO), it aims to support the European Green Deal by improving climate resilience in coastal areas. Central to MOIRAI is the development of REASSHORE, a modular, interoperable hub designed to deliver actionable ocean risk and adaptation strategies for end-users.

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Il progetto NADIR è un’iniziativa di Citizen Science realizzata dal CMCC in collaborazione con il Circolo Legambiente Capo di Leuca APS. Nell’ambito del progetto, i partner intendono organizzare una serie di attività volte al coinvolgimento attivo della cittadinanza tra cui: escursioni in barca a vela, giornaliere, nel weekend e settimanali, per contribuire al monitoraggio degli ecosistemi costiero-marini e di variabili oceanografiche e atmosferiche; percorsi di Alternanza Scuola-Lavoro con le scuole del territorio, per lo sviluppo di competenze trasversali e l’orientamento degli studenti; attività di tagging (marcatura tramite sistemi GPS) delle tartarughe marine; esperienze pratiche a bordo in ambiti quali oceanografia operativa e sperimentale, ecologia marina e climatologia; progettazione, costruzione e utilizzo di strumenti per il monitoraggio marino. Le attività del progetto contribuiranno alle campagne di monitoraggio promosse dalla Jonian Dolphin Foundation, nonché ai servizi europei di EMODnet, CMEMS e al programma strategico di ricerca del CMCC “Global Coast as a New Frontier”.

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The ocean’s biodiversity supports the livelihoods of over three billion people, providing vital services, including food and nutrient cycling. However marine policy and resource management do not yet consider the latest scientific advances, even when the state-of- the-art operational models of the European Copernicus Marine Service (CMEMS) are used. The project’s objective is to enable CMEMS to deliver novel products that inform marine biodiversity conservation and food resources management, by fusing new data into innovative ecosystem models that integrate biological and abiotic components, habitats, and stressors of marine ecosystems. NECCTON will inter-link new models in the CMEMS systems, thus building novel capacities to simulate higher-trophic-levels, benthic habitats, pollutants, and deliver projections of climate change impacts. We will develop and exploit new data-processing chains, supporting CMEMS’ use of novel ecosystem observations, including new hyperspectral data from satellites, as well as available acoustic, pollution and omics data. We will fuse these new data and models by using innovative machine-learning algorithms to improve models and data assimilation methods. These developments will be applied in thirteen case studies, co-designed with fisheries and conservation managers as part of our pathway-to-impact, resulting in the demonstration of Technological Readiness Level 6 of NECCTON products. The project objectives will be achieved by a team of twenty-three world-class organizations with track records for all the key project components. It includes the CMEMS Entrusted Entity and core developers, who will promote the final uptake of NECCTON by CMEMS. On project completion, NECCTON will provide CMEMS with the scientific and technical

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NEWPATHWAYS is a project funded by the European Union’s Horizon Europe programme and the consortium consists of 13 partners, and brings together leading research groups to support climate policymaking within and outside the EU. These research groups are involved in modelling international climate policy, national policies, social science, policy analysis, environmental assessment, and stakeholder engagement.

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ObsSea4Clim brings together key European actors within ocean observing science, climate assessment, Earth System modelling, data sharing and standards, with users of oceanographic products and services to deliver an improved observation framework based on Essential Ocean & Climate Variables (EOV/ECVs).

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The Ocean plays a crucial role in the global C cycle, taking up approximately 25% of the CO2 we emit to the atmosphere, and thus slowing the rate of climate change. The future trajectory of this sink will affect the timing and intensity of the modifications to human processes that we need to undertake in order to stabilise atmospheric CO2 at 450ppm. Our ability to measure and model this sink is limited (evidenced by significant discrepancies between measured and modelled C uptake) with the current frontier area of research being a suite of biological processes related to higher trophic level behaviour within the so called biological C pump. This involvement of higher organisms suggests that human activities (fishing, energy and mineral extraction) has the capacity to affect the ocean C sink however we lack the ability to quantitatively link direct human pressures and ocean C storage. Ocean ICU will measure these key processes and evaluate their overall significance, transferring those that are important into models that inform the IPCC process and in this way contribute to resolving the observed model data mismatch of Ocean C sink estimates. We will use the fundamental knowledge we acquire around biological systems to evaluate the ability of human interventions in the ocean to alter the carbon cycle and produce management tools that allow the tension between resource extraction and C storage to be addressed. This component will involve extensive dialogue with end users and stakeholders and lead to a Decision Support Tool that will